Design and Evaluation of Wearable Solar Radiation Shields for Enhanced Personal Heat Exposure Monitoring

Extreme heat is one of the main climate-induced public health risks to communities around the world. Understanding an individual's vulnerability to heat is challenging, as heat exposures vary significantly depending on occupation, travel behaviors, personal activities, and the surrounding urban environment. Previous validation studies have found that commonly used wearable temperature sensors are less reliable in highly urbanized areas and when worn in direct sunlight. The aim of our study is to investigate the potential to improve the reliability of wearable temperature sensors commonly used in personal heat exposure studies. To accomplish this aim, we designed and rapidly prototyped a set of solar radiations shields to decrease temperature bias when worn in direct sunlight and in areas of high impervious surfaces. In a field deployment, we tested four different form factors for solar radiation shields, which were specifically designed to house the iButton sensor and to be worn on-body. Initial results have shown that these wearable solar radiation shields can improve sensor reliability by decreasing temperature bias by 3 °F on average. These findings highlight the potential for wearable radiation shields to enhance personal heat exposure measurements in urban environments.

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Publication Details

Journal
Sensors
Published
2025-02-05
DOI
https://doi.org/10.3390/s25030945
Primary Topic
Climate Change and Health Impacts
Type
article
Field-Weighted Citation Impact
0.00

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article

Design and Evaluation of Wearable Solar Radiation Shields for Enhanced Personal Heat Exposure Monitoring

Dana Habeeb, Nick Polak, Rahul Devajji, Greatzel Unabia et al.
Sensors
Climate Change and Health Impacts
article

Design and Evaluation of Wearable Solar Radiation Shields for Enhanced Personal Heat Exposure Monitoring

Dana Habeeb, Nick Polak, Rahul Devajji, Greatzel Unabia, Oscar Urbina
article en

Abstract

Extreme heat is one of the main climate-induced public health risks to communities around the world. Understanding an individual's vulnerability to heat is challenging, as heat exposures vary significantly depending on occupation, travel behaviors, personal activities, and the surrounding urban environment. Previous validation studies have found that commonly used wearable temperature sensors are less reliable in highly urbanized areas and when worn in direct sunlight. The aim of our study is to investigate the potential to improve the reliability of wearable temperature sensors commonly used in personal heat exposure studies. To accomplish this aim, we designed and rapidly prototyped a set of solar radiations shields to decrease temperature bias when worn in direct sunlight and in areas of high impervious surfaces. In a field deployment, we tested four different form factors for solar radiation shields, which were specifically designed to house the iButton sensor and to be worn on-body. Initial results have shown that these wearable solar radiation shields can improve sensor reliability by decreasing temperature bias by 3 °F on average. These findings highlight the potential for wearable radiation shields to enhance personal heat exposure measurements in urban environments.

SensorsVol. 25(3)
The University of Texas at El Paso (US), Gwinnett College (US), Indiana University Bloomington (US), Georgia Gwinnett College (US)
National Science Foundation
Sustainable cities and communities
Openalex Percentile: Top 98%
Climate Change and Health Impacts
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Design and Evaluation of Wearable Solar Radiation Shields for Enhanced Personal Heat Exposure Monitoring — Dana Habeeb, Nick Polak, et al. · Sensors (2025) | TGRS Research Map | TGRS